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Tennessine – Periodic Table – Atomic Properties

Tennessine-density-atomic-number-mass-radius

Summary

Element Tennessine
Atomic number 117
Atomic mass [amu] 294
Atomic mass [pm]
Density at STP [g/cm3] 7.2
Number of protons 117
Number of neutrons (typical isotopes) 293,294
Number of electrons 117
Electron configuration [Rn] 5f14 6d10 7s2 7p5 ?
Oxidation states +1,+3
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Tennessine

Proton Number - Atomic NumberTennessine is a chemical element with atomic number 117 which means there are 117 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Tennessine are 293,294.

Atomic Mass of Tennessine

Atomic mass of Tennessine is 294 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Tennessine

The atomic radius of Tennessine atom is –pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Tennessine is 117. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Tennessine is [Rn] 5f14 6d10 7s2 7p5 ?.

Possible oxidation states are +1,+3.

Density of Tennessine

Density of Tennessine is 7.2g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Tennessine-protons-neutrons-electrons-configuration

Tennessine-affinity-electronegativity-ionization

Electron Affinity – Tennessine

Electron affinity of Tennessine is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Tennessine

Electronegativity of Tennessine is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Tennessine is: χ = —

First Ionization Energy of Tennessine

First Ionization Energy of Tennessine is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Tennessine atom, for example, requires the following ionization energy to remove the outermost electron.

Ts + IE → Ts+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Tennessine-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Tennessine - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Tennessine

 

Oganesson – Periodic Table – Atomic Properties

Oganesson-density-atomic-number-mass-radius

Summary

Element Oganesson
Atomic number 118
Atomic mass [amu] 294
Atomic mass [pm]
Density at STP [g/cm3]
Number of protons 118
Number of neutrons (typical isotopes) 294,295
Number of electrons 118
Electron configuration [Rn] 5f14 6d10 7s2 7p6 ?
Oxidation states +2,+4
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Oganesson

Proton Number - Atomic NumberOganesson is a chemical element with atomic number 118 which means there are 118 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Oganesson are 294,295.

Atomic Mass of Oganesson

Atomic mass of Oganesson is 294 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Oganesson

The atomic radius of Oganesson atom is –pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Oganesson is 118. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Oganesson is [Rn] 5f14 6d10 7s2 7p6 ?.

Possible oxidation states are +2,+4.

Density of Oganesson

Density of Oganesson is –g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Oganesson-protons-neutrons-electrons-configuration

Oganesson-affinity-electronegativity-ionization

Electron Affinity – Oganesson

Electron affinity of Oganesson is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Oganesson

Electronegativity of Oganesson is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Oganesson is: χ = —

First Ionization Energy of Oganesson

First Ionization Energy of Oganesson is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Oganesson atom, for example, requires the following ionization energy to remove the outermost electron.

Og + IE → Og+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Oganesson-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Oganesson - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Oganesson

 

Moscovium – Periodic Table – Atomic Properties

Moscovium-density-atomic-number-mass-radius

Summary

Element Moscovium
Atomic number 115
Atomic mass [amu] 290
Atomic mass [pm] 157
Density at STP [g/cm3] 13.5
Number of protons 115
Number of neutrons (typical isotopes) 287-290
Number of electrons 115
Electron configuration [Rn] 5f14 6d10 7s2 7p3 ?
Oxidation states +1,+3
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Moscovium

Proton Number - Atomic NumberMoscovium is a chemical element with atomic number 115 which means there are 115 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Moscovium are 287-290.

Atomic Mass of Moscovium

Atomic mass of Moscovium is 290 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Moscovium

The atomic radius of Moscovium atom is 157pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Moscovium is 115. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Moscovium is [Rn] 5f14 6d10 7s2 7p3 ?.

Possible oxidation states are +1,+3.

Density of Moscovium

Density of Moscovium is 13.5g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Moscovium-protons-neutrons-electrons-configuration

Moscovium-affinity-electronegativity-ionization

Electron Affinity – Moscovium

Electron affinity of Moscovium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Moscovium

Electronegativity of Moscovium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Moscovium is: χ = —

First Ionization Energy of Moscovium

First Ionization Energy of Moscovium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Moscovium atom, for example, requires the following ionization energy to remove the outermost electron.

Mc + IE → Mc+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Moscovium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Moscovium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Moscovium

 

Livermorium – Periodic Table – Atomic Properties

Livermorium-density-atomic-number-mass-radius

Summary

Element Livermorium
Atomic number 116
Atomic mass [amu] 292
Atomic mass [pm] 164
Density at STP [g/cm3] 12.9
Number of protons 116
Number of neutrons (typical isotopes) 290-294
Number of electrons 116
Electron configuration [Rn] 5f14 6d10 7s2 7p4 ?
Oxidation states +2
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Livermorium

Proton Number - Atomic NumberLivermorium is a chemical element with atomic number 116 which means there are 116 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Livermorium are 290-294.

Atomic Mass of Livermorium

Atomic mass of Livermorium is 292 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Livermorium

The atomic radius of Livermorium atom is 164pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Livermorium is 116. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Livermorium is [Rn] 5f14 6d10 7s2 7p4 ?.

Possible oxidation states are +2.

Density of Livermorium

Density of Livermorium is 12.9g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Livermorium-protons-neutrons-electrons-configuration

Livermorium-affinity-electronegativity-ionization

Electron Affinity – Livermorium

Electron affinity of Livermorium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Livermorium

Electronegativity of Livermorium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Livermorium is: χ = —

First Ionization Energy of Livermorium

First Ionization Energy of Livermorium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Livermorium atom, for example, requires the following ionization energy to remove the outermost electron.

Lv + IE → Lv+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Livermorium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Livermorium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Livermorium

 

Nihonium – Periodic Table – Atomic Properties

Nihonium-density-atomic-number-mass-radius

Summary

Element Nihonium
Atomic number 113
Atomic mass [amu] 286
Atomic mass [pm] 175
Density at STP [g/cm3] 16
Number of protons 113
Number of neutrons (typical isotopes) 278,282-287
Number of electrons 113
Electron configuration [Rn] 5f14 6d10 7s2 7p1 ?
Oxidation states +1,+3
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Nihonium

Proton Number - Atomic NumberNihonium is a chemical element with atomic number 113 which means there are 113 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Nihonium are 278,282-287.

Atomic Mass of Nihonium

Atomic mass of Nihonium is 286 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Nihonium

The atomic radius of Nihonium atom is 175pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Nihonium is 113. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Nihonium is [Rn] 5f14 6d10 7s2 7p1 ?.

Possible oxidation states are +1,+3.

Density of Nihonium

Density of Nihonium is 16g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Nihonium-protons-neutrons-electrons-configuration

Nihonium-affinity-electronegativity-ionization

Electron Affinity – Nihonium

Electron affinity of Nihonium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Nihonium

Electronegativity of Nihonium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Nihonium is: χ = —

First Ionization Energy of Nihonium

First Ionization Energy of Nihonium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Nihonium atom, for example, requires the following ionization energy to remove the outermost electron.

Nh + IE → Nh+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Nihonium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Nihonium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Nihonium

 

Flerovium – Periodic Table – Atomic Properties

Flerovium-density-atomic-number-mass-radius

Summary

Element Flerovium
Atomic number 114
Atomic mass [amu] 289
Atomic mass [pm] 175
Density at STP [g/cm3] 14
Number of protons 114
Number of neutrons (typical isotopes) 284-290
Number of electrons 114
Electron configuration [Rn] 5f14 6d10 7s2 7p2 ?
Oxidation states +2
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Flerovium

Proton Number - Atomic NumberFlerovium is a chemical element with atomic number 114 which means there are 114 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Flerovium are 284-290.

Atomic Mass of Flerovium

Atomic mass of Flerovium is 289 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Flerovium

The atomic radius of Flerovium atom is 175pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Flerovium is 114. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Flerovium is [Rn] 5f14 6d10 7s2 7p2 ?.

Possible oxidation states are +2.

Density of Flerovium

Density of Flerovium is 14g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Flerovium-protons-neutrons-electrons-configuration

Flerovium-affinity-electronegativity-ionization

Electron Affinity – Flerovium

Electron affinity of Flerovium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Flerovium

Electronegativity of Flerovium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Flerovium is: χ = —

First Ionization Energy of Flerovium

First Ionization Energy of Flerovium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Flerovium atom, for example, requires the following ionization energy to remove the outermost electron.

Fl + IE → Fl+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Flerovium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Flerovium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Flerovium

 

Roentgenium – Periodic Table – Atomic Properties

Roentgenium-density-atomic-number-mass-radius

Summary

Element Roentgenium
Atomic number 111
Atomic mass [amu] 272
Atomic mass [pm] 121
Density at STP [g/cm3] 28.7
Number of protons 111
Number of neutrons (typical isotopes) 272,274,278-283
Number of electrons 111
Electron configuration [Rn] 5f14 6d9 7s2 ?
Oxidation states
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Roentgenium

Proton Number - Atomic NumberRoentgenium is a chemical element with atomic number 111 which means there are 111 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Roentgenium are 272,274,278-283.

Atomic Mass of Roentgenium

Atomic mass of Roentgenium is 272 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Roentgenium

The atomic radius of Roentgenium atom is 121pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Roentgenium is 111. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Roentgenium is [Rn] 5f14 6d9 7s2 ?.

Possible oxidation states are .

Density of Roentgenium

Density of Roentgenium is 28.7g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Roentgenium-protons-neutrons-electrons-configuration

Roentgenium-affinity-electronegativity-ionization

Electron Affinity – Roentgenium

Electron affinity of Roentgenium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Roentgenium

Electronegativity of Roentgenium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Roentgenium is: χ = —

First Ionization Energy of Roentgenium

First Ionization Energy of Roentgenium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Roentgenium atom, for example, requires the following ionization energy to remove the outermost electron.

Rg + IE → Rg+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Roentgenium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Roentgenium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Roentgenium

 

Copernicium – Periodic Table – Atomic Properties

Copernicium-density-atomic-number-mass-radius

Summary

Element Copernicium
Atomic number 112
Atomic mass [amu] 285
Atomic mass [pm] 122
Density at STP [g/cm3] 23.7
Number of protons 112
Number of neutrons (typical isotopes) 277,281-286
Number of electrons 112
Electron configuration [Rn] 5f14 6d10 7s2 ?
Oxidation states +2
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Copernicium

Proton Number - Atomic NumberCopernicium is a chemical element with atomic number 112 which means there are 112 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Copernicium are 277,281-286.

Atomic Mass of Copernicium

Atomic mass of Copernicium is 285 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Copernicium

The atomic radius of Copernicium atom is 122pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Copernicium is 112. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Copernicium is [Rn] 5f14 6d10 7s2 ?.

Possible oxidation states are +2.

Density of Copernicium

Density of Copernicium is 23.7g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Copernicium-protons-neutrons-electrons-configuration

Copernicium-affinity-electronegativity-ionization

Electron Affinity – Copernicium

Electron affinity of Copernicium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Copernicium

Electronegativity of Copernicium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Copernicium is: χ = —

First Ionization Energy of Copernicium

First Ionization Energy of Copernicium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Copernicium atom, for example, requires the following ionization energy to remove the outermost electron.

Cn + IE → Cn+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Copernicium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Copernicium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Copernicium

 

Meitnerium – Periodic Table – Atomic Properties

Meitnerium-density-atomic-number-mass-radius

Summary

Element Meitnerium
Atomic number 109
Atomic mass [amu] 268
Atomic mass [pm] 129
Density at STP [g/cm3] 37.4
Number of protons 109
Number of neutrons (typical isotopes) 274, 276, 278, 282
Number of electrons 109
Electron configuration [Rn] 5f14 6d7 7s2 ?
Oxidation states
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Meitnerium

Proton Number - Atomic NumberMeitnerium is a chemical element with atomic number 109 which means there are 109 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Meitnerium are 274, 276, 278, 282.

Atomic Mass of Meitnerium

Atomic mass of Meitnerium is 268 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Meitnerium

The atomic radius of Meitnerium atom is 129pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Meitnerium is 109. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Meitnerium is [Rn] 5f14 6d7 7s2 ?.

Possible oxidation states are .

Density of Meitnerium

Density of Meitnerium is 37.4g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Meitnerium-protons-neutrons-electrons-configuration

Meitnerium-affinity-electronegativity-ionization

Electron Affinity – Meitnerium

Electron affinity of Meitnerium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Meitnerium

Electronegativity of Meitnerium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Meitnerium is: χ = —

First Ionization Energy of Meitnerium

First Ionization Energy of Meitnerium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Meitnerium atom, for example, requires the following ionization energy to remove the outermost electron.

Mt + IE → Mt+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Meitnerium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Meitnerium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Meitnerium

 

Darmstadtium – Periodic Table – Atomic Properties

Darmstadtium-density-atomic-number-mass-radius

Summary

Element Darmstadtium
Atomic number 110
Atomic mass [amu] 281
Atomic mass [pm] 128
Density at STP [g/cm3] 34.8
Number of protons 110
Number of neutrons (typical isotopes) 279,281
Number of electrons 110
Electron configuration [Rn] 5f14 6d8 7s2 ?
Oxidation states
Electron affinity [kJ/mol]
Electronegativity [Pauling scale]
First ionization energy [eV]

Atomic Number – Protons, Electrons and Neutrons in Darmstadtium

Proton Number - Atomic NumberDarmstadtium is a chemical element with atomic number 110 which means there are 110 protons in its nucleus. Total number of protons in the nucleus is called the atomic number of the atom and is given the symbol Z. The total electrical charge of the nucleus is therefore +Ze, where e (elementary charge) equals to 1,602 x 10-19 coulombs.

The total number of neutrons in the nucleus of an atom is called the neutron number of the atom and is given the symbol N. Neutron number plus atomic number equals atomic mass number: N+Z=A. The difference between the neutron number and the atomic number is known as the neutron excess: D = N – Z = A – 2Z.

For stable elements, there is usually a variety of stable isotopes. Isotopes are nuclides that have the same atomic number and are therefore the same element, but differ in the number of neutrons. Mass numbers of typical isotopes of Darmstadtium are 279,281.

Atomic Mass of Darmstadtium

Atomic mass of Darmstadtium is 281 u. 

The atomic mass is the mass of an atom. The atomic mass or relative isotopic mass refers to the mass of a single particle, and therefore is tied to a certain specific isotope of an element. The atomic mass is carried by the atomic nucleus, which occupies only about 10-12 of the total volume of the atom or less, but it contains all the positive charge and at least 99.95% of the total mass of the atom. Note that, each element may contain more isotopes, therefore this resulting atomic mass is calculated from naturally-occuring isotopes and their abundance.

Atomic Radius of Darmstadtium

The atomic radius of Darmstadtium atom is 128pm (covalent radius).

Atomic Radius of Chemical Elements

It must be noted, atoms lack a well-defined outer boundary. The atomic radius of a chemical element is a measure of the distance out to which the electron cloud extends from the nucleus. However, this assumes the atom to exhibit a spherical shape, which is only obeyed for atoms in vacuum or free space. Therefore, there are various non-equivalent definitions of atomic radius.

Electrons and Electron Configuration

The number of electrons in an electrically-neutral atom is the same as the number of protons in the nucleus. Therefore, the number of electrons in neutral atom of Darmstadtium is 110. Each electron is influenced by the electric fields produced by the positive nuclear charge and the other (Z – 1) negative electrons in the atom.

Since the number of electrons and their arrangement are responsible for the chemical behavior of atoms, the atomic number identifies the various chemical elements. The configuration of these electrons follows from the principles of quantum mechanics. The number of electrons in each element’s electron shells, particularly the outermost valence shell, is the primary factor in determining its chemical bonding behavior. In the periodic table, the elements are listed in order of increasing atomic number Z.

Electron configuration of Darmstadtium is [Rn] 5f14 6d8 7s2 ?.

Possible oxidation states are .

Density of Darmstadtium

Density of Darmstadtium is 34.8g/cm3.

Typical densities of various substances are at atmospheric pressure.

Density is defined as the mass per unit volume. It is an intensive property, which is mathematically defined as mass divided by volume:

ρ = m/V

Atomic Masses of Elements

Periodic Table of Elements - atomic mass

Atomic Radii of Elements

Periodic Table of Elements - atomic radius

Densities of Elements

Periodic Table of Elements - density

Darmstadtium-protons-neutrons-electrons-configuration

Darmstadtium-affinity-electronegativity-ionization

Electron Affinity – Darmstadtium

Electron affinity of Darmstadtium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e → X + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

Electronegativity of Darmstadtium

Electronegativity of Darmstadtium is .

Electronegativity, symbol χ, is a chemical property that describes the tendency of an atom to attract electrons towards this atom. For this purposes, a dimensionless quantity the Pauling scale, symbol χ, is the most commonly used.

The electronegativity of Darmstadtium is: χ = —

First Ionization Energy of Darmstadtium

First Ionization Energy of Darmstadtium is — eV.

Ionization energy, also called ionization potential, is the energy necessary to remove an electron from the neutral atom.

X + energy → X+ + e

where X is any atom or molecule capable of being ionized, X+ is that atom or molecule with an electron removed (positive ion), and e is the removed electron.

A Darmstadtium atom, for example, requires the following ionization energy to remove the outermost electron.

Ds + IE → Ds+ + e        IE = — eV

Electronegativity of Elements

Periodic Table of Elements - electronegativity

Ionization Energy of Elements

Periodic Table of Elements - ionization energy

Darmstadtium-periodic-table

Source: www.luciteria.com

 

Properties of other elements

Darmstadtium - Comparison of Atomic Properties

Periodic Table in 8K resolution

Other properties of Darmstadtium